First derivatives
Find the rate-of-change function and simplify it carefully.
Use this derivative solver to find and explain first, higher-order, partial, or point-specific derivatives. The page is built around the derivative result, its rules, and what that result means.
derivative solver
First derivatives
Higher-order derivatives
Derivative at a point
Enter your derivative problem below. Add the variable, conditions, and method you want so the AI can return a more relevant worked response.
derivative solver
The page is organized around the problem types people actually search for, while staying within the text-and-image solver's current capabilities.
Find the rate-of-change function and simplify it carefully.
Differentiate repeatedly to obtain second or later derivatives.
Find the derivative function first, then evaluate it at the requested input.
Hold the other variables constant and state the variable of differentiation.
Step
A complete prompt usually produces a more useful explanation than an isolated expression.
f(x)Include function notation and the variable with respect to which the derivative is taken.
dⁿ/dxⁿAsk for first, second, partial, or point-specific derivative as needed.
f′(x)Check every product, quotient, and nested-function rule in the worked response.
f′(a)Compare with a difference quotient, evaluate a point, or differentiate a known antiderivative.
Tip: ask for a named method, a domain, or a verification step when your course requires one.
f′(x)
Find the derivative function first, then evaluate it at the requested input.
Δy / Δx → dy / dxm = f′(a)f′(x) = dy/dx∂f / ∂xExample
These examples reflect common search intent and can be inserted into the solver as a starting point.
Example 1
Find f'(x) for f(x) = x^4 - 3x^2 + 7A polynomial first derivative using the power rule term by term.
Example 2
Find the second derivative of e^(2x) sin(x)A higher-order derivative involving product and chain rules.
Example 3
Find ∂/∂x of x^2 y + e^(xy)A partial derivative where y is treated as constant.
A worked answer is most useful when you know which details are easy to lose along the way.
The intended derivative is ambiguous in multivariable expressions.
Find the derivative function before substituting the point unless a definition-based method is requested.
A derivative request finds a rate of change; a differential equation asks for an unknown function.

